000			03921nam a2200349 i 4500
001			45256
008			170511s2017 sz m b u000 0 eng d
020			_a9783319394633 _q(electronic book)
020			_a3319394630 _q(electronic book)
020			_a9783319394619 _q(hardcover)
020			_a3319394614 _q(hardcover)
035			_a(OCoLC)
040			_aN$T _beng _epn _cN$T _dEBLCP _dN$T _dYDX _dGW5XE _dOCLCF _dBAUN
049			_aBAUN_MERKEZ
050	1	4	_aNA2794 _b.K66 2017
082	0	4	_a621.042
082	0	4	_a720/.28 _223
100	1		_aKonis, Kyle,
245	1	0	_aEffective daylighting with high-performance facades : _bemerging design practices / _cKyle Konis, Stephen Selkowitz.
264		1	_aCham, Switzerland : _bSpringer, _c2017.
300			_axvi, 269 pages : _billustrations ; _c24 cm
336			_atext _btxt _2rdacontent.
337			_aunmediated _bn _2rdamedia.
338			_avolume _bnr _2rdacarrier.
490	1		_aGreen energy and technology.
504			_aIncludes bibliographical references.
505	0	0	_tPreface _tAcknowledgements _tContents _tAbbreviations _t1 The Challenge of Effective Daylighting _t1.1 Introduction _t1.2 Effective Daylighting as a Central Driver for Low-Energy, Low-Carbon Buildings _t1.3 Fenestration Design Impacts on Electric Load Shape and Demand Response _t1.4 Daylighting Impacts on Human Health, Well-Being and Performance _t1.5 Design for the Next Century _t1.6 Challenges of Time and Scale _t1.7 Defining Effective Daylighting _t1.8 An Agenda for Effective Daylighting _t1.8.1 From Compliance-Based to Performance-Based Design. _t1.8.2 From Static and Unresponsive to Context-Aware and Adaptive Systems1.8.3 From Theory to Feedback, Validation and Learning _tReferences _t2 The Role of Metrics in Performance-Based Design _t2.1 Introduction _t2.2 Optimizing Energy in High-Performance Daylit Buildings _t2.2.1 From Daylight "Harvesting" to Daylight Autonomous Buildings _t2.3 From Static to Dynamic, Climate-Based Daylighting Metrics _t2.3.1 Climate-Based Daylighting Performance Metrics _t2.3.2 Limitations and Future Directions of Climate-Based Daylight Modeling _t2.4 Non-visual Effects of Light. _t2.4.1 Daylighting for Circadian Entrainment2.4.2 Field-Based Measurement Practices _t2.4.3 Developing Circadian Daylight Metrics and Performance Criteria _t2.4.4 Limitations and Future Directions of Circadian Daylighting _t2.5 Visual Comfort _t2.5.1 Glare _t2.5.2 Daylight Glare Metrics _t2.5.3 Application of Glare Metrics Using HDR Images _t2.5.4 Dynamic Glare Evaluation _t2.5.5 Frequency and Magnitude of Glare _t2.5.6 View-Direction Dependent Glare Evaluation _t2.5.7 Limitations and Future Directions of Visual Comfort Evaluation _t2.6 Visual Connection to the Outdoors. _t2.6.1 Window Size and Aperture Configuration2.6.2 Distance of Occupants from Windows _t2.6.3 Provision of Multiple Views _t2.6.4 View Content _t2.6.5 Visual Transparency and Openness Factor _t2.6.6 Visual Clarity _t2.6.7 Limitations and Future Directions Related to View _t2.7 Solar Control and Thermal Comfort _t2.7.1 Limitations and Future Directions of Solar/Thermal Comfort Evaluation _t2.8 Conclusions _tReferences _t3 Innovative Daylighting Systems _t3.1 Introduction _t3.2 From Simple to Complex Fenestration Systems _t3.2.1 Optical Light Redirecting Systems (OLS) _t3.2.1.1 Reflective OLS. _t3.2.1.2 Optically Refractive Films and Coatings3.2.2 Angular Selective Glazing Systems _t3.2.3 Ceramic Frits _t3.2.4 Building Integrated Photovoltaics (BIPV) _t3.3 From Static to Dynamic Systems _t3.3.1 Granular Design _t3.3.2 Dynamic "Smart" Glazings _t3.3.3 Dynamic Light Redirecting Systems _t3.4 From Integrated to Interconnected Systems: Internet-of-Things-Enabled Perimeter Systems _t3.5 From Closed-Loop to Human-in-the-Loop Systems: Incorporating Human Factors Models and Feedback From Real Buildings in Use.
650		0	_aDaylighting.
650		0	_aFacades.
700	1		_aSelkowitz, S.,
830		0	_948742 _aGreen energy and technology.
999			_c45643